ML20101G135

Auxiliary Bldg Flood Level Calculations

ML20101G135
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Site:	Byron
Issue date:	03/01/1984
From:	Peterson R COMMONWEALTH EDISON CO.
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NUDOCS 8412270429
Download: ML20101G135 (62)

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AUXILIARY BUILDING FLOOD Calc. No. 3C8-1281-001'

' LEVEL CALCULATIONS L

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.Date March 1, 1982 Safety.Related Yes Project File No. 13.6 Project No(s), 4391-00,4392-00 F

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< COMMONWEALTH EDISON COMPANY Page No.

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-BYRON STATION UNITS 1&2 CALCULATION

_ REVISION

SUMMARY

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u NSLD Calc.~No. 3C8-1281-001 Date:

December: 13,11984 Revision:

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. AUXILIARY BUILDING FLOOD LEVEL CALCULATIONS 4,

Commonwealth Edison Company Byron Station Units 1&2 Project Nos. 4391-00,4392-00 Project File No. 13.6

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4392-00 EXCEPTIONS TO APPROVED DATA-Information-received from.PMD and.various design documents used in this calculation is assumed to be approv d except as follows:

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-ABSTRACT As requested by PMD (Reference 1), an analysis of flooding due to postulated high and moderate energy line failures in the auxiliary building of.the Dyron Station was performed.

This analysis was carried out to address Item 3 of the acceptance criteria of the NRC-SRP Section 3.4.1 (Reference 2).

Fluid release into the various aree of the auxiliary building was-determined by surveying i

the high and moderate energy lines (Reference 3) in each area and selecting the line failu're which would produce the worst flooding conditions.

The fluid release rate from postulated line failurer was calculated based on the criteria of the NRC-SRP 3.6.1 (Refer-ence 4).

The fluid release was accumed to occur for a period of

'30 minutes at which time the leaking line was assumed to be isolated.

Most areas of the auxiliary building would experience a maximum flood level of less than two inches.

An exception to this genera.11-zation is the plant area at elevation 343'0" which houses the

(,e, residual heat removal (RHR) pumps (A&D) and the containment spray (CS) pumps (A&B).

This entire area would experience a maximum flood level of 38" for a number of postulated line failures both inside and outside of the area.

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TABLE OF CONTENTS i

SECTION PAGE-L ABSTRACT 3

-I '

. INTRODUCTION 6

II SYSTEM DESCRIPTION 8

III METHOD OF ANALYSIS

-9 IV MODELING ASSUM.PTIONS 14~

V RESULTS 18 VI' CONCLUSIONS AND DISCUSSION 20 VII REFERENCES 22 TABLES' 24 FIGURES 50 APPENDICIES TITLE PAGE-61 REVIEW ME HOD 62 t

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_ LIST OF TABLES lI-pAag.

-Table 1:. Aux.;Dldg. Flood Level. Input Parameters-24

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Table-2:

Aux.-Bldg.-Flood Levels 42 Table;3:-

Y Floor by. Floor Plood-Zone Classification _

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LIST OF FIGURES

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PAGU Figure 1: '. Aux. Bldg. Flood Zones - El. 330' 50 Figure 2:

Aux. Bldg. Flood Zones - El. 346' 51

-Figure 3:

Aux. Bldg. Flood Zonos - El. 364' 52 Figure 4:, Aux. Bldg. Flood Zonos --El. 383' 53 Figure 5:

Aux. Bldg. Flood Zones - El. 401' 54 Figure 6:

Aux. Bldg. Plood Zones - El. 414' 55 Figure 7:

Aux. Bldg. Flood Zones - El. 426*

56 Figure 8:

Aux. Bldg. Flood Zones - El. 439' 57 Figurc 9:

Aux. Bldg. Flood Zonos - El. 451' 58 Figure 10: Aux. Bldg. Flood Zones - El. 467' 59

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Figure 11: Aux. Bldg. Flood Zones - El. 475' 60

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INTRODUCTION ~

Analyses.were performed to determino the flood level response of the various areas of the auxiliary building to postulated failures of modcrate and high energy fluid systems.

To accomplish this, the auxiliary building was divided into 191 1

flooding zones.

Twenty-six (26) of these zones were termed

" general areas" which are areas that exhibit large open spaces within the plant and often contain stairwells and hatches which are open to lower levels.

One hundred sixty-five (165) of these areas,were termed "subcompartments" which.are smaller 1

areas (generally) enclosed by Seismic Category 1 walls and which open to the general areas only through doorways.

The auxiliary building piping was surveyed to determine which postulated line failures would produce limiting flood levels.

The-fluid release rates woro calculated based on crack or break sizes determined from Reference 4 and the duration of

[])

the release was taken to be 30 minutes.

In most casos the blowdown rate was considered to be constant.

In other casca, an initia,1 high blowdown rato (based on line inventory) was followed by a smaller rato based on an upstream limiting area.

Fluid removal from general areas was by means of contrally located stairwells or open hatches and to a lessor extent, floor drains.

Where no such removal paths woro present, the fluid 'as assumed to accumulato within the arca.

Fluid removal w

from subcompartments was by means of floor drains and flow under doors leading to general areas.

Flood levels for the 191 areas' wore calculated for breaks 1

within and outside of tho areas of interest and the limiting flood levels were tabulated.

The calculated flood lovels woro found to bo loan than 2" for most areas in the auxiliary building.

The remaining arcan may be divided into two clanson.

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The first class includen areas with flood levels gonorally j

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'.less thanL10" an'd which are.not-strongly influenced by

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assumptions =concernin( fluid release duration. -Examples of areas 'in this class include the surface:conderser rooms B

& C'and radwaste evaporator room B.

- The.second l2 class involves' areas where the' fluid ingress greatly exceeds the ' fluid removal' capacity of the area. ~ This class includes

'the-surface condenser room A, and the RHR heat exchanger rooms.

Maximum-fluid levels in these areas generally exceed 36".

In determining flood levels forL the various zones, it was assumed that the break flow was isolated thirty (30) minutes after the start of the flow.

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SYSTEM DESCRIPTION The auxiliary building of the two unit Byron Station is a Safety-Category I structure which houses safety-related equip-ment essential to the safe-shutdown of either reactor.

This equipment includes the residual heat removal (RH) system, the safety injection (SI) system, the containment spray (CS) system, and the auxiliary feedwater (AP) pumps.

The. building also houses a number of systems used in normal plant operations such as the steam-generator blowdown (SD) system.

Postulated breaks or through-wall cracks of piping systems could result in f looding of subcompartments or general areas within the auxiliary building.

In many areas the potential flood level is reduced by fluid removal thrcu' h floor drains g

and flow under doorways.

The floor drain (FD) system is a non-safety-telated system consisting of a network of floor drains and drain pipes throughout the auxiliary building.

These drain pipes converge to the floor drain sump at elevation 330'0".

The floor drain sump pump removes the collected fluid from the sump pit and pumps it to two 8000 gallon floor drain tanks at elevation 364'0".

In the event that this pump fails, the water from the floor drains will collect in the watertight floor drain sump room.

The volume of this room is approxi-mately 2000 ft (N15,000 gal) and there are two such rooms 3

in the, auxiliary building (one for each unit).

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'III.

. METHOD OF ANALYSIS The maximum flooding levels for-the 191 flood zones of the 2

auxiliary building were calculated using a consideration of.

fluid release to each zone, fluid removal (via stairwells,

~ hatchways,;etc.)-from each zone, and fluid accumulation within each zone.

Each of these aspects of flooding is 2

-discussed separately below.

Inflow The maximum fluid release to each zone of the auxiliary building due to a'pos'tulated pipe failure within the zone was

-determined by an examination of various system lines based on the, drawings of Reference 3.

Fluid release was calculated for the various lines in question and the line failure found to result in the' greatest release'was designated as the limiting failure.

Fluid' systems were classified as eitherL

(.)

high or moderate energy systems (References 4 & 5) and differ-

.ent methods were used to calculate fluid release from each-of these systems (see Appendix D).

The design basis fluid release rate from a moderate energy system was based on friction flow through a crack area determined as detailed in Reference 4.

This area is calculated for a through-wall pipe crack and is taken as a circular opening with an area equal to that of a rectangle one-half pipe diameter in length and one-half pipe wall thickness in width.

Friction flow from a through-wall crack is reckoned using the following equation:

P AP =

(3-1)

(Reference 6) g where

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K

- resistance coefficient

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- fluid density (lb /ft )

m V~ - fluid' velocity through crack (f t/sec) g

- 32tl7411b -ft/sec -lb 2

cl m

f

.Then Q

=Av (3-2) c where Q

- volumetric fluid release rate ~

3 (ft /sec)

A

- through-wall c?ack area (ft }

2 c

V

- fluid velocity through crack (ft/sec)

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~ he fluid release rate from a high energy fluid line was T

determined from consideration of a double-ended break.

A limiting flow area was determined for each side of the break.

On one side of the break this was usually a check valve of

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zero area'and on the other side, typical limiting areas include flow orifices'and valve seats.

The inventory between the break and limiting flow area was modeled as being instantly released to the flood zone and the fluid release rate from that time was calculated based on choked flow at the limiting area.

Outflow Fluid removal from general areas is analyzed by calculating flow through stairwells, hatchways, floor drains, and~under doors.

Flow through floor drains and under doors is analyzed using the same methods as are used for subcompartments.

These methods are discussed later.

Fluid removal by flow down hatchways and stairwells is analyzed as flow over a broad crested wier.

The discharge rate is expressed by:

O = bgh (2/3 n )3/2 (3-3)

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'--water. discharge rate'through opening (ft /sec) 3 b :

perimeter of the. opening (f t) g

-132.174Jft/sec2.

o - flood height upstream of the opening (f )'

n A slope along the free surface of the' flood is required to drive flow toward_the. opening (stairwell or. hatchway).

The additional flood height'due to this effect is assessed by

' integrating the equation for gradually varied non-uniform-open. channel flow over a horizontal surface given by:

dh, -(n /2.21) V2(3fp)4/3 2

.dx 1

(VZ/gh) where h

- flood height (ft)

- dimension along-the flow path (ft) x n

- Manning Roughness Coefficient-(ft1/6)

V

- average velocity at a cross-section (ft/sec)

A

- channel cross-sectional area (ft2)

P

- wetted perimeter of-channel (ft) g

- 32.174 ft/sec2 Fluid removal from subcompartments is through either floor drai'ns'or under doorways.

Fluid removal through floor drains is conservatively taken as a constant independent of flood height based on Reference 9 (see Appendix C).

Flow under doorways is analyzed using the minimum flow pre-dicted by either of two models.

Method 1 models the flow as flow under a sluice gate and Method 2 models the flow as fr,1ction flow through an orifice.

Details are found in Appendix C.

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Flood Level' Calculation

-The-maximum flood level'within an area was calculated using L

one of the four methods described below and detailed in Appendix A.

Method'l accounts for flooding _casos'in which the inflow and outflow are both constants.

The flood level is assumed to continuously rise until the inflow is stopped and:

h=(Qg-O) at/A (3-5)-

(Reference 12) g where h

flood height (ft) 3 0

- inflow (ft /sec) 1 3

O

- outflow ~(ft /sec) g At - flow duration (5ec) g,,

2 A

- free floor area of flood' zone (ft )

' Method 2 accounts for cases in which the outflow for a flood height of 2" is greater than the prescribed inflow for the zone.

In this case, the flood height is said to be "<2" with no further specification.

' Method 3 involves situations in which the outflow.is a function of flood height.

Eventually a flood height will be reached at which the inflow and outflow are balanced.

By calculating this height, the maximum flood level is determined.

Method 4 involves cases in which the outflow is a function of flood height, but in which the outflow is still.lcss than the inflow at the time the inflow is stopped.

In this method, credit is taken for outflow which is based on flood heights

'during the transient (i.e., stepwise approximations are made 7;'

for outflow during the transient, see Appendix A).

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Using one of ' the four methods ~describ'ed above, the "30-Minute Flood Level" (Table 2)' is determined for each zone. for linc

' failures within'each zone.

Aft'or calculating this flood IcVel,.

an examination of.floodinglin adjacent zones which could~ spill over into the zone is carried out.

This type of " concomitant"

. floodingLis determined on.a. zone by zone' basis and involves spreading the released inventory over all connected floor areas on the same elevation.

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.IV.

MODELING ASSUMPTIONS

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To analyze flooding, the Auxiliary Building was divided-into

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191' flooding zones. 'The' demarcation of these zones was' gen-

'erally:along physical boundaries such.as reinforced concrete walls and doors' A _ listing of the zones is found in Table 1 and locations of the zones are found-on Figures 1 to 11.

Twenty-six (26) of the ::ones are termed " general areas" which '

are large open areas _usually containing st'airwells-and hatchways I

to lower levels..One hundred sixty-five (165) of the zones-are termed "subcompartments" which are enclosed areas which pormally contain floor. drains and one door open to a general' area.

Flooding, analysis requires a specification of fluid inflow, outflow, and accumulation within each zone.

The modeling assumptions used in each of these areas are discussed separatelyL

_below.

q Inflow Modeling Assumptions Appendix,B contains the methods and calculations used in determining fluid inflow due to postulated line failures.for each of the zones.

For each zone, one line' failure was'found-to result'in the highest fluid release for the area in question.

.These limiting failures are listed in Table 1.

Assumptions used in obtaining these release rates are as follows:

1)

The limiting fluid release rates come from postulated failures of the lines shown on the drawings listed in Reference 3.

l 2)

Stress 1cvels in certain large moderato energy lines i

and certain CV system high energy lines were evaluated 2

and found to be such that-no line failures need be s

postulated for these lines (References 15, 16, 17).

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!3f Fluidfconditibns (pressure, temperature)'within th' ;line:

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Dofrinterest are,taken from Reference 10.

The' maximum

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(normal operating ~ conditions are used.-

Under-any.and i

Eall'-fluid conditions, no fluid is assumed to flash-

'to steam (all fluid is ' assumed to accumulate on the s floor).-

4)= certain' systems.such as Rll and SI.are analyzed as' moderate-

' energy systems'since'they' operate less than 2% of-normal.

plant-operating-time.. Analysis of.the RH. system assumede P

operation'in the cold shutdown mode since this maximizes-

. postulated fluid release.

Outflow Modeling Assumptions Appendix'c contains the methods and calculations used in determining fluid-outflow through floor drains, under doors,

.and down. stairwells and hatches.

Outflow capabilities assumed for individual zones are shown on Table-1.

Assump-J.

^

tions used in determining the outflows are as follows:

1)

The maximum flow through floor drain lines was taken,from:

Reference 9 as 96 gpm for 4" drain lines and 300'gpm for 6" drain ~ lines.

The flow was taken to be'indepen-dent of the flood level in the room.

Calculations in Appendix C demonstrate the ability of either normal

. floor drains or leak ~ detection sump drains to supply a 4"idrain line with 96 gpm given a flood height of ~ less than 2"..

2)

When more than one floor drain was attached to the same 4" drain line, no credit was taken for the extra drain (s).

The flow was assumed to be limited by the line.

Also, in order for a 6" drain line to carry its full capacity,.

it was assumed that it must be supplied by at least s

three 4" floor drains.

For further~ explanation and 9ci details, see Appendix C.

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The total floor drain capacity was assumed to be limited to the. floor drain sump capacity which is 300 gpm for each unit.

For the essential service water pump area the limiting drainage was assumed to be the areas' floor drain sump capacity of 100 gpm.

4)

All sump pumps in the floor drain system were assumed to fail.

Thus, flow was assumed to continue into the floor drain system until the integrated flow equaled the volume of the floor drain sump room (15,000 gal each).

When these rooms were calculated to be full, flow into the floor drain system was assumed to be stopped.

5)

In calculating flooding within a zone due to a break within the zone, doors leading to adjacent zones were assumed to be closed.

For normal doors (not watertight) an opening of 18 sq.. in, was assuraed under each door

(=36" wide x h" clearance).

6)

In calculating the outflow down stairways as flow over a broad crested weir, the width of the '.teir was taken as the perimeter of the stairway opening.

Flood Level Calculation Assumptions Assumptions used in calculating flood level were taken as follows:

1)

Gross floor areas for the flooding zones are given in Table 1 and are calculated in Appendix C.

2)

The free floor area used in Equation (3-5) was taken as 80% of the gross floor area except where noted in Appendix D.

Exceptions were made fcr rooms with tar %s where the free floor area was calculated exactly.

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The duration of' fluid ' inflow from a postulated line failure-Qas taken as thirty (30) minutes.

In some zones

- (c."g 42-9), the' maximum flood could occur after~ thirty-(30). nutes due to Jinflow from' standing' water in

. adjacent zones (e. g.,. G2-4 ).

In Appendix D, flood level calculations for the individual

-zones are' detailed.

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V.

RESULTS Results of the flood level calculations are shown in Table 2.

The first column, "30 Minute Flood Level," indicates the maximum flood level due to a line break within the zone of interest.

The second column, " Concomitant Flood Level,"

indicates the maximum, flood level from postulated line failures either within or outside of the zone of interest.

Most of the flood zones (132 of 191) have maximum calculated 2

flood levels of 4" or less.

As would be expected, most o.f the zones located in the upper elevations of the plant (above el. 4 01 ' 0 ") fall intolthis category (termed Flood Category I).

Zones in this category are typified by areas having no large fluid lines and/or having large floor areas and drainage capacities via either floor drains, stairwells, or door openings.

g Another" group of zones is termed Flood Category II zones.

This designation indicates a maximum flood level of between 4 " and 10".

Of the twenty-three (23) zones in this category, nineteen (19) of them are located at elevation 346'0".

The maximum flood levels for these zones arise from a large line failure (48" SX line) followed by accumulation within a large area (the entire elevation).

The last category, termed Flood Category III, involves zones with' maximum flood heights greater than 10".

Thirty-six (36) 2 2

zones fall into this category and include the RHR pump rooms (A & B), the RHR HX rooms (A & B), the CS pump rooms (A & B),

the blowdown condenser rooms, and surface condenser room A.

In only one area would a flood in one of these zones cause 1

a concomitant flood exceeding 10" in adjacent areas.

A design r

J basis through-wall crack in any of the r.ones RHR pump room (A sor B), or CS pump room (A or B), would give rise to extensive flooding (up to 38") in the other three connected zones.

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' Also,.'in:only.one: case would-'a design basis. outflow in_a~

Flood; Category I or II: zone'give rise to--a ricod Category III

- designation for ' adjacent zones. - This. occurs when: postulated outflow into the zones of elevation 346'0" ficws to;the pump cubicles ~(RHR & "CS)' of elevation ? 343 '0".- ~ This outflow could

. give rise to~;a-potential flood 1of 37" in.these zones-

-(S2-8, S2-9, S2-12, S2-13).-

7 Table 31 presents a' floor-by-floor-classificatien-of flood

! zones-(Categories-I, II, and~III). -As shown in the table, the. zones which experience the greatest flecding are

-2 concentrated in the lower floors of'the-auxiliary. building,'

while no'significant flooding occurs-in the.unper floors.

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VI.

CONCLUSIONS'AND DISCUSSION

~

Table 11 in conjunction withLFi,guresil through 11 permit evaluation of. the. affect of flooding due to1 postulated high and: moderate energy line failures on the performance of safety-related' systems within.the Auxiliary Building.

As~seen from Table 3, the zones which experience flood-levels exceeding 10" are concentrated in the lower portions

'ofEthe auxiliary-building.-'It should also be noted that none of-the upper floors-in the building-would experien 2

significant flooding.

This result. reflects the general design'of systems:within the building with large lines and high' energy systems located.primarily on t:1e lower floors.

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REFERENCES 1)

Inter-Office Memorandum to N.

Weber -(NSLD), from K. J.

Green (PMD),

Subject:

"High Energy Line Break Survey and Flood Level Calculation," dated October 27, 1981.

2)

U.S. Nuclear Regulatory Commission Standard Review Plan, Section 3.4.1,

" Flood Protection,"-Rev. 1.

3)

Field, R.

M., " Survey of Auxiliary Building High Energy Line Breaks," NSLD Calculation Number 3CC-1181-001, Revision 0, Table'2, December 21; 1981.

4)

U.S. Nuclear Regulatory Commission Standard Review Plan, Section 3.6.1, " Plant Design for Protection Against Postulated Piping Failures in Fluid Systems Outside Containment," Rev. O, Branch Technical Position APCSB 3-1,

" Protection Against Postulated Piping Failures in Fluid Systems Outside Containment," November 24, 1975.

5)

" Byron /Braidwood FSAR," Table 3.6.1.

6)

Crane Co., Flow of Fluids through Valves, Fittings, and Pipe, Technical Paper No. 410, page 3-3, 1981.

7)

Shames, I.

H., Mechanics of Fluids, Eq. (15-60), pg. 501, McGraw-Hill, 1962.

8)

John, James E. A.

and William Haberman, Introduction to Fluid Mechanics, Eq. (9-13), page 233,' Prentice-Hall, 1971.

9)

Memorandum of Telephone Conversation, Person called:

Morton Brill (Plum Des), Person calling:

Robert M.

Field (NSLD),

Subject:

" Floor Drain Design and Specificationi" date:

January 26, 1982.

\\

10)

Sargent & Lundy Engineers, " Byron /Braidwood Mechanical s,

g;)

Department Piping Line List," Revised 1/1/81.

Calc. A'o.

3C8-1281-001 Revision: 3 3

Page: 23 Project'No. 4391-00 4392-00 11)

Byron-Braidwood Piping Design Tables:

Table No.-

Rev.

Date 100BB C

01-28-77 105BB E

01-28-77 140BB E

10-09-80 340BB D

02-11-77 640BB D

02-11-77 1540BB A

01-02-76 r

i 12)

Weber, N.,

" Thoughts on Flooding Calculations," March 6, 1981.

13)

Inter-Office Memorandum to R. J. Netzel (SPED), from K. J. Green

-(PMD),

Subject:

. " Flood Levels in' Containment Spray Pump-Rooms and RHR Pump Rooms," dated March 26, 1982.

14)

Memorandum of Telephone Conversation,. Person called:

L. Cypranowski ( ADD--APD), Person calling:

R. M. Field (NSLD),

Subject:

" Flood Levels in CS & RH Pump Rooms - Louvered Doors," dated May 18, 1982, 15)

Inter-Office Memorandum to R. M. Field (::SLD), from K. J. Green (PMD),

Subject:

" Moderate Energy Line Break Locations," dated January 27, 1984.

2 s

16)

Inter-Office Memorandum to R. M.' Field, (:;SLD), from K. J. Green -(PMD),

Subject:

" Flooding Calculation Assumptions," dated March 14, 1984.

17)

Inter-Office Memorandum to R. M. Field (;SLD) from K.J.

Green (PMD),

Subject:

" Flooding Calculation' Input,"

dated March 15, 1984.

\\

,['i

, _ ~ -

Calc. No. 3C8-1281-001

-Revision:

3 Page:

23A 3-Project'No. 4391-00

'4392-00

- 18). 'DIT-BY-PMD-0019 to.R.-M.

Field (NSLD) from B.-T.. Appelson

(.,PMD), November 12, 1984.

3

19)

DIT-BY-PMD-0022, t o ' R. 'J. Peterson (NSLD) f rom B. T.

~Appleson (PMD), December'.12, 1984.

20)'

DIT-BY-PMD-0023 to R. J. Peterson-(NSLD) from-B. T.

Appleson- (PMD), December 12,-1984.

t 9

• I O

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p.,

g-)y.

Unic. No 'gce-lici-vu.C sL

- vy

' Revision: 3 Page: 24:

3 TABLE 1 Project'Noi 14391-00

• _4392 i' AUXILIARY BUILDING FLOOD LEVEL. INPUT PARAMETERS FLOOR'l - ELEVATION 330'0" '

7 INFLOW-FLOODINGtt l'

. LIMITING RATE-

' GROSS FLOOR OUTFLOW 3

2 i'

'(ft /sec)

AREA - (f t ).

DESCRIPTION ZONE AREA DESCRIPTION FAILURE Gl-lA General Area, Essential 1SX02AA36 2.803-

.4014 100 gpm sump Gl-1B Service Water Pumps, 1SX02AB36 2.803 4014 100 gpm sump Essential Service Water Strainers, Unit 1, Unit 2 Sl-1A Auxiliary Building Floor 1SX04AA20

-1.533 147-Sl-1B Drain Sump, Oil Separator, 2SX04AA20 1.533-147 Unit 1, Unit 2 Sl-2A Auxiliary Building Equip -

lWED9A.07032 90 1-4" FD Sl-2B ment Drain Tank Ptunp Room, 2WF39AA3

.09945 90

-1'4" FD Unit 1, Unit 2, Borated Equipment Drain Tank Pump Room Sl-3A Valvo Pit Area-ISX01BA36 2.803 27 1-2" FD Sl-3B 2SX01HA36 2.803 27 1-2" FD Sl-3C 1SX01Hn36 2.803-27 1-2" FD S1-3D 2SXOlan36 2.803 27 1-2"'FD INotation:

FD - floor ~ drains,-LDSD - le~ak detection sump drain, DL -'dra'in linc.

• • Notation:

Gx-y - Lindicates a general arca on floor x, arca y Sx-y indicates a subcompartment on floor x,. area y Note:

Unless indicated, all failures'are.through-wall cracks of moderate energy. lines.

D.

s, TABLE 1 (Cont'6) pf((i

~

3 FLOOR 2 - ELEVATION 346'0" Page: 25 3

Project No. 4391-00

-0 INFLOW FLOODING LIMITING-IU11N3 GROSS; FLOOR OUTFLOW 3

2 ZOME AREA DESCRIPTION FAILURE (ft /sec)

AREA (ft ).

DESCRIPTION G2-1 General Floor Area, OSX03CA48-4.89.

5500 2-300 gpm sumps Unit 1, Blowdown Condenser Pump, MCC, N2 Storage Area G2-2 General Floor Area, OSX03CB48 4.89.

3900 2-300 gpm sumps.

Unit 2, Blowdown Con-denser Pump, MCC x 3, Inst.. Panel G2-3A General Piping Area, 1RH02AA8 1.15 2300 1-4 " lPD, 1-36" Auxiliary Building DOOR 2

G2-3B Collection Sump 2RH02AA8 1.15 2300 1-4"'FD,. 1-36" Pumps, Unit'l & Unit 2 DOOR G2-4 General Floor Area, OWS07Cl2 1.00 3400 2-300 gpm. sumps Chiller Units, Chiller Pumps,' Instrument Panels S2-1A Recycle Holdup Tank Area, OAB09CB4

.125 1408 S2-1B Tank 1, Tank 2, 125,000 OAB09CB4

.125 408 gallons each S2-2A Recycle Waste' Evaporator 1CC35B8

.6683 193 1-4" FD,~1-36" Rooms DOOR S2-2B 2CC35B8

.6683 193 1-4" FD, 1-36" DOOR S2-3 Gas Decay Tank' Area 2AF02CA4 1.55 1683 3-4" FD, 1-36"-

DOOR S2-4 Valve Aisle OAB06C2

.07 450 1-4" FD S2-5

' Recycle Evaporator Feed 0AB05CA3

.085' L283 2-4" FD.

~

~

Pump Area

~

pC

[3-Calc. No, 3C8s1283 D 1 s.

s

.4

. Revision: L3:

3o

. TABLE l' (Cont 'd)

Page: 92 6.

. Project No.f4391-00 FLOOR 2 - - ELEVATION 346 '0" (Cont'd) 4392 INFLOW FLOODING LIMITING.

RATE ~

' GROSS-FLOOR-OUTFLOW-3 ZOME AREA DESCRIPTION FAILURE (ft /sec)-

' AREA (f t2).

DESCRIPTION >

S2-6A-Auxiliary Building Equip ' lWE60A3

.1406-

'317' l-4" FD.

S2-6B ment Drain Tanks, 8000 2WE60A3

. 1406 317 1-4"cFD gallons each, Unit 1,

~

Unit 2 S2-7A Moderating Heat Exchanger 1BR0(A3

.199 211' 1-4"'FD S2-7B Area, Unit 1, Unit 2; 2BR04A3

.199 211 1-4" FD S2-8A Residual Heat Removal (A)- 1RH01CA16 2.6

225, 1-4" LDSD' Pump Area, Unit 1, Unit 2

1-36" DOOR S2-8B 2RH01CA16 2.6 225~

1-4"'LDSD, 1-36" DOOR' S2-9A Containment Spray Pump 1SIO6BA24 3.96

.-370 2-4" LDSD S2-9B Area, Unit 1, Unit 2 2SIO6BA24 3.96 370

'2-4"'LDSD Train A S2-10A Letdown' Reheat Heat ICVl9A3*

.60 55 1-4" FD, Exchanger Room, Unit 1, 1-36" DOOR-S2-10B Unit 2.

2CVl9A3*

.60 55 1-4" FD, 1-36" DOOR' S2-llA

. Letdown. Chiller Heat 1BR21AG

.3605 200.

1-4" FD, Exchangor Room,. Unit 1, l-36"-DOOR S2-llB Unit 2 2BR21A6

.3605 200

l-4 " ' FD,

1-36" DOOR, S2-12A Containment Spray Pump' 1SIO6BB24 3.96 280 1-4 " LDSD S2-12B

. Area B, Unit.1, Unit 2 1SIO6BB24 3.96 280 1-4" LDSD

• High energy line failure.

f

• 4 l

e-y;~.1 Q

.unAc. No.ixU-12U1-001 r: '

y:

v.

~ ~ ' '

~

' Revision:93' TABLE 1 ' (Cont 'd)

Page:'27'

' 3

Project.No..4391-00..

./

.4392-00 FLOOR 2 - ELEVATION 346'0"'(Cont'd)

INFLOW FLOODING LIMITING RATE'

. GROSS FLOOR:

OUTFLOW

' ZONE AREA DESCRIPTION FAILURE 3

2 (ft /sec)

~ AREA (ft )

-DESCRIPTION S2-13A Residual Heat Removal 1RH01CB16 2.6 200 1-4" LDSD,-

Pump Area B, Unit 1, 1-36" DOOR.

S2-13B Unit 2 2RH01CB16 2.6 200 1 -4.". LDSD,.

1-36" DOOR-S2-14A Valve Aisle, Unit 1 1CV19A3*

0.60 175 1-4" FD, Unit.2 1-36" DOOR.

S2-14B 2CVl9A3*

0.60 175

.1-4" FD, 1-36" DOOR.

• High energy line failure.

e

..m

?

i

,; y...

h.;

~

[y

}) J v

L Calc.. No'. ~3C8-1281-0 01~

..g

TABLE 1 (Cont'd)

Revision:U 3 '. '

s FLOOR 3 - ELEVATION'364'

Page

:28-3 131 y

Project'No.L4391-00

4392-,

INFLOW-FLOODING LIMITING.

TRATE:

= GROSS. FLOOR-OUTFLOW:

' ZONE AREA DESCRIPTION'

' FAILURE:

3 2

J (ft /sec)-

AREAS-(ft )

DESCRIPTION G3-1 General Floo'r. Area,

.lCC02A18-1.682 14330L

. C E N T R A L '-

Unit 1, Component.

.STAIRWELLL Cooling HX & Pumps Inst. Rack & Panel, MCC x 2 G3-2 General Floor Area, 2CCO2.118

-l'.682 5002

~

CENTRAL Unit 2, Component STAIRWELL:

Cooling HX & Pumps, Recycle Evaporator Monitor Tanks & Pumps,.

Primary Water Makeup Pumps G3-3A General Area, Unit 1, ICV 00AA4*

2.90 3225-13-4" FD, 1-36" Unit 2, 480V MCC, Spray DOORS G3-3B Additive Tank (5000 2CV08AA4*-

2.90

'3225~

.3-4" FD, 1-36"-

gallons)

. DOORS G3-4 General Arca, Monitoring 1CC03A16 1.487 2222 CENTRAL Cabincts, C&I Pancis STAIRWELL:

S3-1 Auxiliary Building Floor OWF39Dn6

.2549 740 1-4" PD,-

Drain Tank Room-36" DOOR S3-2 Auxiliary Building. Floor OWF42AD3

.155 190 1-4" FD S3-3A Blowdown Condenscr Room,

1. s 1.671 238 1-4"'FD, 1-3'6"'

.3

' Unit 1, Unit 2' DOOR-S3-3B l'.671.

23~8 :

1-4" FD, 1-36"'

2 DOOR

• High energy line failure.

3

1. Per Reference 18, one of the four12-inchL non-test flines.

i i

e

fy D

ms Cal'c.LNo.33C8-1281-001:

. 3i TABLE 1 (Cont'd)'

Revisionr 3.

Page r 29 3.

.5 FLOOR 3 - ELEVATION-364' (Con t ' d) -

~ Project;No.- 4391-00 4392-00 INFLOW FLOODING LIMITING RATE GROSS FLOOR-OUTFLOW ZONE AREA DESCRIPTION FAILURE 3

(ft /sec)-

' AREA (ft2)

DESCRIPTION' S3-4 Regeneration Waste Drain 0WXD2A3

.155' 170-1-4" FD Pump Room S3-5 Regeneration Waste Drain OWZ49A4

.276 479 2-4" FD Tank Room S3-6 Chemical Drain Tank OWZ01B6

.2549 370

'l-4" FD, 1-36" Room DOOR S3-7A Safety Injection Pump 1SIO2BA6

.477' 344 1-4" LDSD, Cubicle A, Unit 1, 1-36" DOOR S3-7B Unit 2 2SIO2BA6

.477 344 1-4" LDSD, 2

1-36" DOOR S3-8A Residual Heat Removal 1CC04AA12 1.17 158 1-4" LDSD, Heat Exchanger Room A,.

1-36" DOOR S3-8B Unit 1, Unit 2 2CC04AA12 1.17 158 1-4 " LDSD,

1-36" DOOR S3-9A Positivo Displacement ICV 07A3*

0.218 370 1-4" FD 3

S3-9B Charging' Pump & Cooler 2CV07A3*

0.218 370 1-4" FD Unit 1, Unit 2 S3-10A Centrifugal Charging ICV 08AA4*

2.90 317 1-4" FD S3-10B Pump Area A, Unit 1,.

2CV08AA4*

2.90 317 1-4" FD Unit 2 S3-llA Residual Heat Removal 1CC04AB12 1.17 183 1-4" LDSD, Heat Exchanger Room A, 1-36" DOOR S3-llB Unit 1, Unit 2 2CC04AB12 1.17 183 1-4" LDSD, 1-36" DOOR

• High energy line failure.

-~

~

I h

1,

' t p

1 Calc. No. - 3C8--1281-001 i

4

~ TABLE ' l' (Cont 'd)

Revision: 4-3 Page: 30 FLOOR 3 - ELEVATION 364' (Cont'd) 3 Project'No.~.4391-00 4392 INFLOW ~

FLOODING LIMITING.

RATE

' GROSS FLOOR OUTFLOW:

-ZONE AREA DESCRIPTION-FAILURE 3

2 (ft /sec)

AREA (ft )~

DESCRIPTION-l S3-12A Safety Injection Pump 1SIO2BB6 477-1225-1-4" FD',-

~

Room B, Unit 1, Unit 2.

S3-12B 1-36" DOOR-2:

2SIO2BB6

. 477 225 1-4" FD,.

'l-36" DOOR S3-13A Centrifugal Charging 1CV08AB4*

2.90 225 1-4" FD S3-13B Pump Area Bi Unit'1, 2CV08AB4*

2'.90 225 11-4"'FD-

]

Unit 2 4

e

• High energy line failure.

9

6:;-

t n.

L, ~q.

s.

t, Calc.-No. 3C8-1281-001

TABLE l(Cont'd)?

Revision:

l'J l 3-Page:'31 1

~

3I FLOOR 4 - ELEVATION 383 '0"

. Project'No.34391-00 s

4392- - INFLOW -

FLOODING LIMITING

-RATE' GROSS' FLOOR OUTFLOW (ft /sec)

' AREA (ft )

DESCRIPTION' 3

2 ZONE AREA DESCRIPTION FAILURE-G4-1 General Floo'r Area OWS07E30 3.00.

~6932

. CENTRAL-Filter' Rooms,. Auxiliary STAIRWAYL Feedwater Pumps, MCC x 5, Radiation Monitors S4-1A Diesel Oil Storage

. 1D 02CA3

.05-486'

/-

S4-1B Tank Room (373 ' 6")-

1D 02.\\B3.

.05 661 S4-1C 2DQO2AB3

.05-821

~

S4-lD 2D502AA3

.05 548 l-S4-2 Control Room Refrigera.

OSX33AA8

.5457 1750 3-4" FD tor Room (38 3 ' 3 ")

S4-3A Demineralizer Valve

.0WX45BB3

.192 486

2-4" FD, Aisle, Filter Valve 1-36" DOOR

'l S4-3B Aisles 1CV14 AB2 2.05 917 2-4" FD,-

1-36" DOOR S4-3C 2CV14AB2 2.05 211.

2-4" FD, 2 3 2-36" DOOR'.

S4-4A Aux. FW Diesel Driven 0FP09B10

.913 776

' l-4 ". LDSD,

Pump Room, Unit 1,' Unit 2

.3-36" DOOR S4-4D O PP091m10

.913-812

.1-4 " LDsn',

2 3-36" D0011-S4-5 Remoto Shutdown Panol,

'0FPK2A4

._274 2400 2-36" DOORS Radioactive Waste Control Panel Room

.S4-6 Control Room HVAC 0FPJ3A10 1.03 300 1-4" FD, 2-36" DOORS

7 4

e,

,S Colc.'No. 3C8-1281

l l

Revision: 3 TABLE 1 (Cont 'd)

Page: 32 3

Project No. 4391-00 FLOOR 4 - ELEVATION 383'0" (Cont ' d) 4392-00 INFLOW FLOODING LIMITING RATE GROSS FLOOR OUTFLOW 7.0;1E AREA DESCRIPTION FAILURE (ft /sec)

AREA (ft2)

DESCRIPTION-3 S4-7A Seal Water Heat 1CV17B3

.13 210 1-4" FD S4-7B Exchanger Room, Unit 1 2CV17BC

.13 210-

'l-4" FD Unit 2 i

S4-8A Letdown Heat Exchanger 1CC06A8

.6683 312 2-4" FD, 1-36" Room A, Valve Aisle, S4-8B Unit 1, Unit 2 2CC06A8

.6683 312 2-4" FD, 1-36" DOOR DOOR S4-9A Letdown Heat Exchanger 1CV01FA3*

.60 159 4" FD, l

Room B, Unit 1, Unit 2 i

S4-9B 1-36" DOOR-2CV0lFA3*

.60 159 l-4" FD,-

l-36" DOOR

~

(

• High energy line failure.

I

i y,

(.:

Revicicn a 3 -

TABLE 1 (Cent'd)

Pnge: 33 L3:

Project No.f4391-00.

FLOOR 5 - ELEVATION 401'0" INFLOW FLOODING LIMITING RATE GROSS FLOOR

OUTFLOW-ZONE' AREA DESCRIPTION FAILURE 3

(ft /sec)

AREA (ft2)

DESCRIPTION G5-1 General Area, 480V OWSD7A20

. 1.800 8638 CENTRAL-Substation, 480V MCC, STAIRWAY-C&I Panels t

GS-2 RCFC Chiller Area, lWOO3AB12

.9554 1331 6" DL, 1-36" Reactor Containment DOOR Chiller Pumps G5-3 RCFC Chiller Area, 2 WOO 3AB12

.9554 1331 6" DL,'l-36" Reactor Containment DOOR-l Chiller Pumps S5-1A Diesel Engine &

1SX26AB10

.'800 2250 6 " DL, 1-36" Generator, Room B,

, DOOR S5-1B Unit 1, Unit 2 2SX26AA10

.800 2250

.6" DL, 1-36" DOOR

.n SS-2A Diesel Engine &

1SX26AB10

.800 2250 6" DL, 1-36" I

Generator, Room A, DOOR SS-2B Unit-1, Unit 2-2SX26AA10

.800 2250 6 " DL, 1-36".

DOOR SS-3A Electrical Cable 1000 2-4" FD Tunnel, EL. 415',

SS-3D Unit 1, Unit 2 l

1000 2-4" FD I

l S5-4 Valve Operating Room ICC08B2

.11 286 1-4" FD Primary Sample Room SS-5 Boric Acid Tank Room 1AB84A2

.11 704 1-36" DOOR SS-6 Boric Acid Transfer OWOO5CB6

.3605 260 1-36" DOOR Tank & Pump Room I

q i

)

()

.m.

Rovicion: 3 '

TABLE 1 (Cont'd)

Page: 34 3

Project No. 4391-00 FLOOR 5 - ELEVATION 401'0" (Cont ' d)

.4392-00 ~

INFLOW FLOODING LIMITING RATE GROSS FLOOR

' OUTFLOW

_ 7ONE' AREA DESCRIPTION FAILURE 3

2 (ft /sec)

AREA (ft )

DESCRIPTION S5-7 Spent Resin'& Concen-OWX225A3

.119 194 1-4" FD trates Pumps Room SS-8 Radwaste Evaporator OSH06A12 1.084 547 1-4" FD, Monitor Tank Room 2-36" DOOR SS-9A Surface Condenser Rooms 0WS07D24 2.2 463 1-4" FD, 1-36" DOOR SS-9B OWSF09A18 1.7 560 1-4" FD, 2-36" DOOR" SS-9C OWS75BCl2 1.17 560 1-4" FD, 2-36" DOOR SS-10A Instrument Calibration 2SX07GA16

.8587 701 2-4" FD, 1-36" Facility, Radwaste DOOR SS-10B Exhaust HVAC Equipment OWS59BB12 1.17 701 2-4" FD, 1-36" Room DOOR SS-llA Boron Injection Tank 1CV09A4*

2.90 498 OPEN GRATING SS-llB Room Piping Penetration 2CV09A4*

2.90 498 OPEN GRATING Area

~

• High energy line failure.

2

- me N~~~3cy }

r*y COlc. No.'JCU-1281-N41 QJ

~

Rr.vicion: 13-TABLE 1 (Cont' d)

.Page: 35 3-Project No. 4391-00' FLOOR 6 - ELEVATION 414'0" 4392-00.

INFLOW FLOODING LIMITING RATE GROSS FLOOR

~ OUTFLOW ZONE AREA DESCRIPTION FAILURE 3

2 (ft /sec)

AREA > (f t )

DESCRIPTION G6-1A General Area, 3100

~1-4" FD G6-1B Unit 1, Unit 2

'3100 1-4" FD, S6-1A Radwaste Evaporator OWX113AA18

.59

~559' 1-4" FD, 1-36" Rooms, 414' DOOR S6-1B 2SHDlA10

.800 726' l-4" FD,.1-36" DOOR S6-lc OWX113AC18

.59 674 1-4" FD,.1-36" DOOR S6-2A Electrical Equip.

1142 1-4" FD S6-2B Room No.

1,.

1142 1-4" FD Electrical Equip.

Room No. 2 O

O 9

6 J

., =

g

~

. > Calc. No.o JCB-12U1-flal

~

. Revision: 23L TABLE l' (Cont 'd)

Page:;

36f FLOOR 7 - ELEVATION 426'0"~

'ProjectiNo.- 4391--00 4*

3 4392-00

INFLOW FLOODING LIMITING:,

RATE GROSS' FLOOR; OUTFLOW ZONE AREA DESCRIPTION-FAILURE 3

(ft /sec)'

AREA-(ft2)~

DESCRIPTION G7-1 General Area, 480V 0FPZlA10

l.03

'4398-CENTRAL.

MCC, Substation,_ Boron

' STAIRWAY:

Injection Recirculation Pump G7-2A General Area, 480V MCC, ISHDlA10

.90'

'3644-3-4";FD

~

G7-2B Pressurizer.HTR Trans-2SHDlA101

.90-3644' 3-4" FD-former G7-3 General Area, Corridor OWOO5CB6

.3605 800 3-4" F'D S7-1A ESF SWGR Room, Div. 1, 2272 S7-1B-Unit 1, Unit 2 2272 S7-2A ESF SWGR Room, Div.

II,.

2272 S7-2B Unit 1, Unit 2 2272 S7-3 Laboratory'HVAC-Equipment OWO24B6

.3605 1832-3-4" FD.

Room S7-4 High Level Laboratory 1282-S7-5 Low Lcvol Laboratory 800 S7-6 Counting Room 614 S7-7 Radiation Chemical-449 Management Room S7-8 Hot Instrument Room 187 S7-9 Decontamination Room 187

T

. Q?

4

\\

< 3,;3 J ca.i.c e c:v. r LC,o Ale A--n.i. i

'i " 4,.

.f g.,

j-3,,

', Revision:i3

'~

' TABLE l " (Cont ' d) '

J Page :'137 3: ^ *^

• 4

. Project:No..4391-00' FLOOR 7 - ELEVATION 426'0" (Cont ' d)

'4392-00 32 INFLOW FLOODING

-LIMITING

. RATE GROSSnFLOOR-OUTFLOW:

a ZONE

' AREA DESCRIPTION FAILURE 3

2 (ft /sec)

AREA 1(ft )

. DESCRIPTION S7-10 Supply Rood, Rad.'Sup.

791 Off., Supervisors Office,.

Radiation Office, Aisle S7-ll Spent. Resin Storage Tank OWX225A3

.1193 288'.

,1-4a Fo S7-12 Concentrates Holding OWX100A3

.01406_

L236-Tank Room S7 Waste' Gas Compressor:

OCC27B1

.078-348' l2-4* Fo Room S7-14 Laundry Room 900 S7-15A Volume Control Tank 1CV05B8

.472 348 l-4"'FD,-

Room & Valve: Aisle 1-36"' DOOR S7-15B Unit 1, Unit 2 2CV05B8

.472 348:

1-4"'FD, 1-36"' DOOR S7-16

' Decontamination / Change.

628-Area S7-17

'Decon Pad / Storage. Area 800

{]

~

n

Colc.;No. 3C8-1281-0D1

.s..

.s

~.

"3-Revision:-~

' TABLE ' l'- (Cont 'd)'

Page: 38 3-Project,No'. 14391-00' FLOOR 8 -- ELEVATION ' 439 ' 0" 4392-00.

~ INFLOW FLOODING LIMITING RATE-GROSS! FLOOR OUTFLOW; ZONE.

AREA DESCRIPTION' FAILURE 3

(ft /sec)

AREA (ft2)-

DESCRIPTION' G8-1 Upper Valve' Operating.

OPPJ4A10' 1.03 1232.

OPEN.TO'426

Area S8-1A

' Cable Room Area A

.0FPT2A4

.27-5000 6" DL S8-1B 0FPP5B4

.27'

.5000 6" DLJ S8-2A Cable Room Area B OFPU7A6:

.48-5000 6" DL S8-2B 0FPJ5B6

.48 5000L 6" DL S8-3A Cable Room Area C 0FPJA10

- l '. 0 3 " ' ' " ' "

628 2-4"~FD,.

~ Cable Riser Area 3-36" DOOR-S8-3B 0FPJ5B4

.27 628 2-4" FD,.

'3-36" DOOR SS-4A Cable Room Area D-0FPP2A6

.48 2669 6 " fML.

S8-4B 0FPP5A6

.48 2669 6 " DL x

9 o

1

/

-..L.......-....,....

L.

g--

gq

.Cnic. [No. '3C8-1281'-0.61 Revision. 3l 3

TABLE 1 (Con t ' d )'

Page: 39 FLOOR 9 - ELEVATION 451'0" Project yo. 4391-00 4392 INFLOW.

FLOODING LIMITING RATE.

GROSS' FLOOR' OUTFLOW ZOUE AREA DESCRIPTION FAILURE 3

2 (ft /sec)

AREA (ft )

DESCRIPTION G9-1 General Area OWSD8A20 1.8 850 CENTRAL STAIRWAY-G9-2A General Area, Evapora-OSHM7AA8

.61 1830 1-6" DL G9-2B tive Cooler Fan, OSEM7AB8

.61 1830

.1-6" DL Isolation Damper, Unit 1, Unit 2 S9-1A Non ESF Switchgear 2736 S9-1B Room, Unit 1, Unit 2 2736 S9-2A Battery and Miscellaneous 1240 S9-2B Electrical Equipment 1240 Room, Unit 1, Unit 2 S9-3A Battery and Miscellaneous.

767 S9-3B Electrical Equipment 767 Room, Unit 1, Unit 2 S9-4A Air Conditioning Unit, OWOOSCA6

.3605 1590 1-4" FD,.

Unit 1, Unit 2-1-36" DOOR S9-4B OWOO4AD6

.3605 1590 1-4" FD,

.1-3G" DOOR S9-5A Auxiliary Electrical 243S.

S9-5B Equipmont Room, Unit 1,

.2435 Unit 2 S9-6A Kitchen, Laboratory, 900' S9-6B Unit 1, Unit 2 900 S9-7A Computer Room, 720 S9-7B Unit 1,_ Unit 2 720

[

JCalc; ' No. 3C8--12 8'l-091 l.:

v...

~ '

?Revisioni.3;

.l

. TABLE l- (Cont 'd)-

Page: 140..

3'

.1 j

. Project No'. 4391-00, FLOOR'9 -' ELEVATION 451'0" (Cont ' d) t.-

4392-00 IKFLOW.

z-

- FLOODTNG

-LIMITING RATE.

GROSS FLOOR OUTFLOW ZONE' AREA DESCRIPTION

' FAILURE (ft /sec)-

AREAi(ft )'

DESCRIPTION 3

2 S9-8 Control Room,-

4700 Unit 1, Unit 2 S9-9A' Evaporative Cooler OSHN2AA8

.61

.l'100 3-4'"

FD S9-9B Room,' Unit 1, Unit 2 0SHN2AA8.

.61 1100 13-4" FD.

S9-10A HEPA and Pre-Filters, S9-10B and Charcoal Bed 617 617 S9-10C

, Filters, Unit 1, 617 S9-10D Unit 2 617 S9-llA HEPA and Pre-Filters,

'317 S9-11B Unit 1, Unit 2 S9-llc 317 317' S9-llD

.317

^

e r

e

^

l 2

~

TABLE -l ' ' (Cont ' d)

Re ion. 3

{

FLOORS 10, 11 - ELEVATIONS.463'0", 475'6"'

fr o.l4391-00 et

'.4392-00.

INFLOW-FLOODING LIMITING 1 RATE' GROSSJFLOOR OUTFLOW 3

ZONE

' AREA DESCRIPTION, FAILURE

- (ft /sec)-

AREA (ft2)

' DESCRIPTION' S10-1A Upper Cable' Spreading 0FPU7B4

.274 1092 1-4" FDi S10-1B Area A, Upper. Cable 0FPT7A4

.274 1092 1-4" FDt Spreading Area F S10-2A Upper Cable Spreading.

OFP140A4

.27 2246 1 4"LFDt S10-2B Area ~B, Upper Cable OFP156A4-

.27-2246-1-4" FDi Spreading Area G S10-3A Upper Cable Spreading 0FPl<0A4

.27

2925, 3-4" PITJDRAINT S10-3B Area C, Upper Cable OPP 156A4.

.27 '

2925' 3-4" PIT DRAIN 7 Spreading Area.H S10-4A Upper Cable Spreading 0FP142A4

.27 644 1-4" FDi' S10-4B Area D, Upper Cable 0FP156A4

.27 644 1-4" FDt Spreading Area J S10-5A Upper Cable Spreading 0FP140A4

.245 300-1-4"-FD S10-5B Area.E, Upper Cable OPP 156A4

.245 300 1-4" FD 2

Spreading Arca K S10-6A Ventilating Area, OSIIMSAB8

.61 2435-2-4" FD S10-6B Unit 1, Unit 2 OSIIM8AAU

.61 2435 2-4" FD S10-7 IIVAC Chiller Room OWSE2AB14 1.3.

1654 OPEN G!tATING TO C9-1 S10-8A Filter Room Area OPPl73A4

.28 454 OPEN STAIRWAY (EL. 459')

S10-8B Filter Room Area OPPU7D4-

.28 454 OPEN STAIRWAY (EL. 457')

Sll-1 Vent Equipment Room No. 1 4880 Sll-2 Vent Equipment Room No. 2 '0FP166B4-

.28 2200

'4-4" FD

^

l iThese zones are all interconnected by.36" doors.

i

[

.)

Calc. Pfo. 3CR-1281-00],

Revision: 3 Page:-42

[

Project No. 4391-00 4392-00

-TABLE 2 AUXILIARY BUILDING FLOOD LEVELS 30 MINUTE-COUCO:1ITANT FLOODING FLOOD LEVEL FLOOD. LEVEL

. FLOOD ZONE (in)

(in)

CATEGORYi FLOOR 1 -

.Gl-1A 19" 19" I$I EL. 330'0" Gl-1B 19" 19" III Sl-1A

. FULL FULL III

.Sl-1B FULL FULL III Sl-2A

<2" FULL III Sl-2B

<2" FULL III Sl-3A FULL FULL III

~

Sl--3 B FULL FULL III S1-3C FULL FULL III Sl-3D FULL FULL III FLOOR 2 -

G2-1 8"

0" II EL. 346'0" G2-2 8"

8" II-G2-3A 6"

6" II 2:

G2-3B 6"

6" II G2-4 8"

8"

-II S2-1A 7"

7" II S2-1B 7"

7" II S2-2A 4"

6" II

,.g S2-2B 4"

6" II S2-3 15" 15" III S2-4

<2" 6"

II S2-5

<2" 6"

II S2-6A

<2" 6'

II S2-GB

<2" 6"

II.

S2-7A

<2" 6"

II S2-7B

<2" 6"

II i,

S2-8A 102" 102" III 4

i Flood Category I - Flood height 14" Flood Category II - 4" < Flood height $10" 2

Flood Category III - Flood height >10"

f. ~.

. Calc. No. 3C8-1281-001 Revision:

3*

Page: 43 p

-ProjectJNo. 4391-00.

3

't 4392-00 TABLE 2 - (Cont 'd)

30 MINUTE CONCOMITANT FLOODING FLOOD LEVEL FLOOD LEVEL FLOOD ZONE (in)

(in)'

CATEGORY FLOOR 2 S2-8B 102" 102" III Cont

)

~ ^'

0" III

.S2-9B 38" 38" III S2-10A 11" 11" III S2-10B' 11" 11" 8

III S2-11A

<2" 6"

II S2-llB

<2" 6"

II S2-12A 38" 38" III S2-12B 38" 38" III

'S2-13A 102" 102" III S2-13B 102" 102" III S2-14A 3"

6" ki-)

II S2-14B 3"

6" II FLOOR G3-1

<2" EL. 364' 2"

I G3-2

<2" 2"

I G3-3A 15" 15" III G3-3B 15" 15" III G3-4

<2" 2"

I S3-1

<2" 2"

I S3-2

<2" 2"

I S3-3A 35" 35" III 3

S3-3B 35" 35" 2

III S3-4

<2" 2"

I S3-5

<2" 2"

I S3-6

<2" 2"

I S3-7A

<2" 2"

I s

S3-7B

<2" 2"

I 2

S3-8A 101" 101" III r)

.,s)

S3-8B 101" 101" III n

-=i Calc. No. 3C8-1281-001 Revision

~3

_Pager 44 3

Project No. 4391-00.

4392-00 TABLE 2 (Cont'd) 30' MINUTE CONCOMITA';T FLOODING FLOOD LEVEL.

FLOOD LEVEL FLOOD-ZONE (in)

(in)

CATEGORY FLOOR 3 -

S3-9A

<2" 2"

I.

3 S -9B

<2" 2"

I Cont S3-10A FULL FULL III S3-10B FULL FULL III S3-11A 101" 101'?

III S3-llB 101" 101" III S3-12A

<2" 2"

I S3-12B

<2" 2"

I' S3-13A FULL FULL' III

.S3-13B FULL PULL III FLOOR 4 -

G4-1

<2" 2"

I^

EL. 383'0"

~

S4-1A 3"

3" I

S4-1B 3"

3" I

S4-lC 3"

3" I

S4-1D 3"

3" I

S4-2

<2" 2"-

I S4-3A

<2" 2"

I S4-3B 22" 22" III S4-3C 12" 12" III S4-4A

<2" 2"

I 2

S4-4B

<2" 2"

I S4-5

<2" 2"

I S4-6 3"

3" I

S4-7A

<2" 2"

I S4-7B

<2" 2"

I S4-8A

<2" 2"

I S4-8B

<2" 2"

I s

S4-9A 3"

3" I

/-

S4-9B 3"

3" I

.s

~

Calc.'No.'3C8-1281-00]

Revision: 3 Page: -4 5.

3 Project No. 4391-00 4392-00 f '.

~ TABLE 2 -(Cont 'd) 30 MINUTE

- CONCOMIT.; :T FLOODING FLOOD LEVEL FLOOD LEVEL

' FLOOD ZONE (in)

(in)

' CATEGORY' h' LOO 1:;5 GS-l'

<2" 2"-

I EL. 401'0" G5-2'

<2" 2"

I-GS-3

<2" 2"

I' SS-1A

<2" 2"

I SS-1B

<2"'

2" I

S5-2A

<2" 2"

I SS-2B

<2" 2"

I

'2" 2"

I SS-3A S5-3B

<2" 2"-

I SS-4

<2" 2" ~

I' SS-5

<2" 3"

I

~

SS-6 5"

5" II s

S5-7

<2" 2"

I' SS-8 4"

4" I

.SS-9A 50" 50" III SS-9B 10" 10" II SS-9C 5"

5" I

SS-10A 4"

4" I

S5-10B 10" 10" II SS-llA

<2" 2"

I s'

S5-llB

<2" 2"

I FLOOR 6 -

G6-1A:

2" I

EL. 414'O" G6-1B 2"

I S6-1A 3"

3" I

l S6-1B 7"

7" II S6-lc 3"

3" I

S6-2A 2"

I s

S6-2B 2"

I

/,0

\\.f

Calc. No.;3C8-1281-001

.- +

-Revision: 3 Page: 46

'3-

' Project No. 4391-00

(-

4392-00

'. ('

TABLE 2 (Co' nt 'd) 30 MINUTE CO:!COMITA!!T FLOODING FLOOD LEVEL FLOOD. LEVEL

-FLOOD

' ZONE (in)

(in)

CATEGORY' FLOOR 7 -

G7-1

<2"'

2" I

EL.-426'0" G7-2A'~

4" 4"

I G7-2B 4"

4" I

.G7.-3..

<2" 3"

I S7-1A 2"

I S7-1B 2"

I S7-2A 2"

I S7-2B 2"

I S7-3

.<2" 3"

I S7-4 3"

I S7-5 3"

I S7-6 3"

I 37 7 3a y

S7-8 3"

I S7-9 3"

I S7-10 3"

I S7-11

<2" 3"

I S7-12

<2" 3"

I S7-13

<2" 3"

I S7-14 3"

I S7-15A

<2" 3"

I S7-15B

<2" 3"

I S7-16 3"

I S7-17 3"

I FLOOR 8 -

G8-1

<2" 2"

I EL. 439'0"

-S8-1A

<2" 2"

I S8-1B

<2" 2"

I S8-2A

<2" 2"

I k,

, Calc.'No. 3C8-1281-001'

-- ; ;i 4*... ;

-- i '

ex Revision: 3 Page -47 3

- Project :'No..4391-00

[(N 4392 x,.

. (Cont ' d) '

TABLE 2 30 MINUTE C O N C O :I T A:!T --

-FLOODING

FLOOD LEVEL FLOOD-LEVEL FLOOD-

' ZONE.

(in)

. (in)-

-CATEGORY s

1~

~~

FLOOR 8 -

S8-2B-

<2" 2"

I

EL.-439'0" S8-3A

<2":

-2" I

. (Cont ' d) -

S8-3B

<2" 2"

I S8-4A

<2" 2"

I S8-4B

-<2" 2"

I FLOOR 9^

~

G9-1 3"

3" I~

-EL.

451'0" G9-2A x2" 3"

I G9-2D

<2" 3"

I

-S9-TA.

I S9 1B I-S9-2A I

rs

-ij-

~ S9-2B-I

S9-3A I

S9-3B I-S9-4A

<2" 2"

I S9-4B

<2"

'2" I

S9-SA I

S9-5B I

S9-6A 2"

I S9-6B 2"

I S9-7A I

S9-7B I-7 S9-8 I

S9-9A

<2" 2"

I S9-9B

<2" 2"

I S9-10A 2"

I s

S9-10B i

2" I

i.

S9-10C 2"

I i

t L

- 7.

- p r

c Calc. No. 3CR-1281-001 4

^

-Rovision:

3 3

Page ::.'4 8 f Project'No. 4391-00

~

'4392-00 TABLE 2 (Cont 'd)

.30 MINUTE COIICO.

INT FLOODING-FLOOD. LEVEL FLOOP lVEL FLOOD' ZONE ~

_ (3 n)

(f. :

CATEGORY

-FLOOi "S9-10D-2" I

~EL..

T" S9-llA 2"

I (Co, '

!)

'~ '

'S9-llB 2"

I-

'S9-llc

2" I.

S9-11D 2"

I

FLOORS 10,-

S10-1A

<2"

'2" I

459 0

"~

~

463'5",

S10-2A.

.<2" 2"

I 467'0",

S10-2B

<2" 2"

I 475'6" S10 -3A..

<2"

'2" I

S10-3B

<2" 2"

I m

(jf S10-4A 2"

2" I

S10-4B 2"

2" I

S10-5A

<2" 2"

I 2-

.S10-5B

<2" 2"

I S10-6A

<2"-

2" I

S10-6B

<2" 2"

I.

S10-7

<2" 2"

I S10-8A

<2" 2"

I S10-8B

<2" 2"

I Sll-1 2"

I Sll-2

<2" 2"

I

\\

e' i

_..---,.---,.-,___,.--r--,

_------._,,-.y-,#

g-

' :a Calc. ' ' o. 3C8-12 81-00.1 Revision:

3.

3 Page: 49

( L.-

Project No. 4391-00

'4392-00 y

I i

A TABLE 3' FLOOR-BY-FLOOR FLOOD ZONE CLASSIFICATION I

NUMBER OF 2CNES CATEGORY-Floor-Elevation ~

I II III Total 1

330'0" 10

-10 19 11 30:

'2

!346'0" 12 26 3

13

-364'0" 14

^4 383'0"-

17 2

19 5

401'0"

~17 3

1 21 6

414'0"

• 6 1

7 2

/

7 426'0" 24 24 8

439'0" 9

9 9

-451'0" 28 28~

10-463'5" 15 15 11 475'6" 2

2 Total 1 32 23 36 4

191 3

kCategoryI

- Maximum Flood IIcight <4" Category II

- 4" < Maximum Flood lleight < 10" Category III - Maximum Flood IIcight >10"

~

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~ Calc. No,'3C8-1281-001"

-'i

-s Revision :. 3 '

3 :'

Page:-50

. Project No._ 4391-00 4392-00

/

s-

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13 18 23 Sl-3A 31_

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FIGURE 1:

Auxiliary Building Flood Zones"- El. 330'0"-

7'

.g Calc. Mo.L3C8-1281.001I n

~~

.' Revision': 13 Page: 51-3.

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fs Project No. 4391-00 4392-00 N

f N

S2-13A' S2-13B N

h~ S2-12A S2-12B W

',//////,/ii,,,

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f RV S2-9A

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S2-9B S2-11A.

1S2-11D',

"' l"t ~'-S2-10A

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// / / / / / /-

h S2

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,u G2-3A

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/

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S2-5 S2-6A N

S2'6B f

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/ / // / // / // / / / ////$f/ Y

//// // / / // / /

l'0 l'5 21 S2-A S2-2B 26 FIGURE 2:

Auxiliary Building Flood Zones - El. 346'0"

~~

g Le;

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Calc..No,3C8-l?81-001',

,-c y..

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S3-12A S3-13A-S3-12B

- MS3-13B e

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pi Project No.. 4391.

,G3-3A

/

4392-00!

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/,G3-3B

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b r/L V

6

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/_} - S 3-9A '.

S3-9B (

'[S3-83 G3-4 8

/

G3-3A b-G3-3B lwy-y,.um,m[],.-

b :,,::,, - %

. in y -

y

', 9 ju,'

S3-7A S3-7s 0-f

/

s3-4y j', g S3-3A

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ZL 34 4

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G3-1 G3-2

'S3-5 S 3 -- G -

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5, P

i

/

S2-1A S2-1B

/

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s'

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// / / // //////

J//

/ ~ / / / / ff 7~g / / / } ' ' ' } '

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10 l'

15' i

21 FIGUREf3:

Auxiliary Building. Flood Zones - El. 364'0"

.': )

JCalc. No. 3C8-1281600li..

devision : ' 3 :

Page:.53 3-Project No. 4391-00.

4392-00 FUEL

/

BUILDING y

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,S4-7BT kmc

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4..

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10 S4 3B 15 18 21 26l 30 S4-3C FIGURE 4:

Auxiliary Building Flood Zones - El.'.k83'0".

.o Calc. No. 3C8-128.001 Revision: 3 f

Page: 54 3

Project'No. 4391-00 y

4392-00 i

'/////f/

/ / / / / / / / / / / / / / / / / / I' f,

M L Y, l

l-.

3-3A bb (M33-3B

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S5-10B

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SS-M 5-9B

F5-9C

,' d

{

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SS-1A

' SS-2A i--

GS-1 4

j

' SS-2B-1 SS-1B

_.-d.1.

1 t

N SS-6:

M C'

~ Ow ' -

,M

< uit /g.

'.s,-

SS-4 SS-5

-S5-7bn,M-L$

S5-3A l

SS-8 g

SS-3B-

[,

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- ' ' ')

i 10 15

. 21-26 30 FIGURE 5:

Auxiliary Building Flood Zones - El. 401'0"

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3C,8-281-001 K

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3-

, Project No'.. 4391 -

,4392-00'

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Calc. No. 3C8-1281-001 REVIEW'MCTh0D SHEET Pa 6

E' nal) 3 Projcct No.;{M5 Uden

}g}-gg The NSLD Calc._No.

3C8-1281-001 Revis:an 3

reviewed by me according to the method (s) checked bc: w Computer Aided Calculations:

A review to determine if _ the input datt

, specified for program execution is consistent with t!

esign input, correctly defines the probicm for the euter algorithm, and is sufficiently accurate to produce esults within any numerical limitation of the program.

Review of code input only since the ecmputer program has sufficient history of use at Sargent & Lundy in similar calculations.

Comparison of computer program's solution to test problem (s).

-- Comparison of results of the computer calculation with tho

---results of an independent hand calculation.

Other.

Explain:

Hand Prepared Design Calculations:

Detailed review of the original calculations.

--" Review by an alternate, simplified, or approximate method of calculation.

Review of a representative sample of repetitive calculations.

Review of the calculation against a similar calculation

--- previously performed.

Revisions:

Editorial changes only.

M11mination of unapproved input data without altering

--- calcula tion results.

ther.

Explains

(//ek d l

1. Yr/OtrnIgo M l

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revned Itad in-Emn a t-iek Other 9

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Reviewer __

41uf [.

(ve' IO Datos /A//A/

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